Design optimization of modified re-entrant auxetic metamaterials reinforced with asymmetric edge cells for crushing behavior using the Taguchi method

Keyphrases

• Design Optimization 100%
• Mechanical Response 100%
• Specific Absorption Rate 100%
• Taguchi Method 100%
• Reinforced 100%
• Deformation Mechanism 100%
• Poisson's Ratio 100%
• Metamaterials 100%
• Crushing Behavior 100%
• Auxetic Metamaterials 100%
• Mean Crushing Force 100%
• Energy Absorption Ratio 100%
• Re-entrant Auxetic 100%
• Inclined Strut 100%
• Edge Cells 100%
• Specific Strength 100%
• Mechanical Behavior 50%
• Mechanical Performance 50%
• Compressive Strength 50%
• Relative Contribution 50%
• Energy Absorption 50%
• Failure Behavior 50%
• Re-entrant 50%
• Compressive Load 50%
• Slot Width 50%
• Parametrized 50%
• Two-sample 50%
• 3D Printing 50%
• Geometric Factor 50%
• Experimental Simulation 50%
• Taguchi Design 50%
• Design Tables 50%
• Maximum Compressive Strength 50%
• Compressive Failure 50%
• Inclined Rib 50%
• Cell-wall Angle 50%
• FE Simulation 50%
• Asymmetrical Cell 50%
• Compression Load 50%
• Relative Significance 50%
• Contribution Rate 50%

Engineering

• Mechanical Response 100%
• Specific Energy Absorption 100%
• Taguchi Method 100%
• Design Optimization 100%
• Poisson Ratio 100%
• Deformation Mechanism 100%
• Compression Strength 100%
• Compressive Strength 100%
• Simulation Result 50%
• Mechanical Performance 50%
• Compression Load 50%
• Failure Behavior 50%
• Absorbed Energy 50%
• Design Factor 50%
• Relative Significance 50%
• Slot Width 50%
• Geometric Factor 50%
• Mechanical Property 50%
• Fem Model 50%
• Three Dimensional Printing 50%

Material Science

• Metamaterial 100%
• Taguchi Method 100%
• Compressive Strength 50%
• Deformation Mechanism 50%
• Poisson Ratio 50%
• Mechanical Property 25%
• Finite Element Modeling 25%
• Three Dimensional Printing 25%
• Compression Load 25%